This paper examines the vital role of Artificial Intelligence (AI) and Machine Learning (ML) in the optimization and management of modern communication networks, under immense pressure from rising data traffic and increasing complexity of the networks. With global interconnectivity, the sheer growth in data traffic, primarily through IoT devices, streaming, and cloud computing, calls for a paradigm shift in the management of networks. With new challenges being placed on these systems, including those from efficiency and scalability issues and the requirements to manage dynamic conditions, traditional methods of network management relying on static algorithms and even manual interventions can no longer do justice. In networks, integrating AI and ML makes these technologies autonomously capable of detecting and predicting faults in real time, greatly minimizing downtime while improving service reliability. This level of automation guarantees continuous operation and resource utilization at peak demand or in unpredictable situations. With AI and ML, models that continuously learn from data produced by the network can predict potential disruptions in advance and optimize their performance, rather than act after an event has occurred. For example, network resources can be changed in real time to support dynamic changes in traffic patterns and to automatically route around bottlenecks or balance the load across many network nodes. This ability to self-optimize is especially critical in mission-critical environments such as healthcare, finance, and emergency services, where maintaining uninterrupted connectivity is essential. In these sectors, AI-driven network systems ensure the availability of vital services, reduce the risk of human error and contribute to improved overall network resilience. Also, with the advancing AI and ML technologies, the potential for facilitating more advanced use cases, including predictive maintenance and intelligent network slicing, is in place. Predictive maintenance employs historical and real-time data to predict potential system failures and supports proactive interventions by reducing operational costs and enhancing the reliability of networks. Intelligent network slicing allows a customized virtual network to be established for specific services, users, or applications in order to optimize resource allocation through greater flexibility.

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Optimizing Networks Using AI and Machine Learning: The Role of Agentic AI in Transforming Network Management

  • A. Neelu,
  • J. P. Pramod,
  • Ala Lahari

摘要

This paper examines the vital role of Artificial Intelligence (AI) and Machine Learning (ML) in the optimization and management of modern communication networks, under immense pressure from rising data traffic and increasing complexity of the networks. With global interconnectivity, the sheer growth in data traffic, primarily through IoT devices, streaming, and cloud computing, calls for a paradigm shift in the management of networks. With new challenges being placed on these systems, including those from efficiency and scalability issues and the requirements to manage dynamic conditions, traditional methods of network management relying on static algorithms and even manual interventions can no longer do justice. In networks, integrating AI and ML makes these technologies autonomously capable of detecting and predicting faults in real time, greatly minimizing downtime while improving service reliability. This level of automation guarantees continuous operation and resource utilization at peak demand or in unpredictable situations. With AI and ML, models that continuously learn from data produced by the network can predict potential disruptions in advance and optimize their performance, rather than act after an event has occurred. For example, network resources can be changed in real time to support dynamic changes in traffic patterns and to automatically route around bottlenecks or balance the load across many network nodes. This ability to self-optimize is especially critical in mission-critical environments such as healthcare, finance, and emergency services, where maintaining uninterrupted connectivity is essential. In these sectors, AI-driven network systems ensure the availability of vital services, reduce the risk of human error and contribute to improved overall network resilience. Also, with the advancing AI and ML technologies, the potential for facilitating more advanced use cases, including predictive maintenance and intelligent network slicing, is in place. Predictive maintenance employs historical and real-time data to predict potential system failures and supports proactive interventions by reducing operational costs and enhancing the reliability of networks. Intelligent network slicing allows a customized virtual network to be established for specific services, users, or applications in order to optimize resource allocation through greater flexibility.